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Hydrological Assessment of the Water Replenishment Possibility of the Uzh River Urbanized Floodplain on the Example of Bozdosky Park, Ukraine

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Języki publikacji
EN
Abstrakty
EN
Over the last twenty years, the number of projects aimed at river restoration and rehabilitation increased significantly. In the city it is impossible to provide full river restoration, but at the same time it is possible to create a comfortable natural environment both for flora and fauna and for the citizens. In our work it was assessed the possibility of the floodplain restoration by the water replenishment of the dry old riverbed during the vegetation season on the example of the river inside the city. The simulation of the current state allowed to verify the main parameters of the model with the existing observations of the water levels in the river and lake and water levels in the wells located in the park. The river – floodplain interaction was simulated: floodplain was separated from the river by the flood control dyke, the water replenishment of the lake and the old riverbed was due to seepage (current state); the connection of the floodplain with the river by the culvert and the replenishment of the lake and the old riverbed with surface river water. The simulation showed that the lake isolated from the river is filled to a depth of not more than 0.5 m, the old riverbed is filled with water only during spring floods. The water balance calculations of the lake showed that in the conditions of isolation from the river, the lake volume is significantly affected by precipitation and evaporation from the lake water surface area. The connection of the lake with the river surface water reduces the impact of the vertical components of the water balance, at the same time increases the seepage losses from the lake because of the water level raising. The connection of the river with the floodplain makes it possible to replenish the old riverbed and the lake in the mean year, but in the dry years the water level in the lake does not allow to replenish the old riverbed during the vegetation season. Calculations showed that to be able to keep the constant water level in the lake and old riverbed, it is necessary to increase the water level in the lake.
Twórcy
  • Department of Water Supply and Sewage, Faculty of Engineering System and Ecology, Kyiv National University of Construction and Architecture, 31, Povitroflotsky Avenue, Kyiv, 03037, Ukraine
  • Department of Water Supply and Sewage, Faculty of Engineering System and Ecology, Kyiv National University of Construction and Architecture, 31, Povitroflotsky Avenue, Kyiv, 03037, Ukraine
Bibliografia
  • 1. Wohl E., Lane S.N., and Wilcox A.C. 2015. The science and practice of river restoration, Water Resources Research, 51, 5974–5997.
  • 2. Szałkiewicz E., Jusik S., Grygoruk M. 2018. Status of and Perspectives on River Restoration in Europe: 310,000 Euros per Hectare of Restored River, Sustainability, 10(1), 129, 15 р.
  • 3. Chen L., Liu S., Wu Y., Xu Y., Chen S., Pang S., Gao Z., Zhang G. 2020. Does Ecological Water Replenishment Help Prevent a Large Wetland from Further Deterioration? Results from the Zhalong Nature Reserve, China. Remote Sensing, 12, 3449.
  • 4. Habersack H., Piégay H. 2007. 27 River restoration in the Alps and their surroundings: past experience and future challenges, Developments in Earth Surface Processes, Elsevier, 11, 703-735.
  • 5. De Bell S., Graham H., White P. 2020 Evaluating Dual Ecological and Well-Being Benefits from an Urban Restoration Project, Sustainability, 12 (2), 695.
  • 6. Wanga Y., Liub X., Huc W. 2020. The research on landscape restoration design of watercourse in mountainous city based on comprehensive management of water environment, European journal of remote sensing, 11p.
  • 7. Wang D., Li Z., Li Z., Pan B., Tian S., Nie X. 2020 Environmental gradient relative to oxbow lake-meandering river connectivity in Zoige Basin of the Tibetan Plateau, Ecological Engineering, 156, 105983.
  • 8. Garrett-Walker J., Collier K., Daniel A., Hicks B., Klee D. 2020. Design features of constructed floodplain ponds influence waterbird and fish communities in northern New Zealand, Freshwater Biology, 65(12), 2066-2080.
  • 9. Fuller I., Death R., Garcia J., Trenc N., Pratt R., Pitiot C., Matos B., Ollero A., Neverman A., Death A. 2021. An index to assess the extent and success of river and floodplain restoration: Recognising dynamic response trajectories and applying a process-based approach to managing river recovery, River Research and Applications, 37(2), 163-175.
  • 10. Seidel M.,Voigt M., Langheinrich U.,Hoge-Becker A., Gersberg R., Arevalo J.,Luderitz V. 2017. Re-connection of Oxbow Lakes as an effective measure of river restoration, Clean-Soil Air Water, 45(3), 1600211.
  • 11. Obolewski K., Glińska-Lewczuk K., Bąkowska M. 2018. From isolation to connectivity: the effect of floodplain lake restoration on sediments as habitats for macroinvertebrate communities, Aquatic Sciences, 80, 4.
  • 12. Korpak J., Lenar Matyas A. 2019. Stream channel changes as a result of sudden sediment release due to check dam lowering (Polish Carpathians), Environmental Earth Sciences, 78, 14, 404.
  • 13. Obodovskyi O., Surai K., Pochaevets O. 2018. Estimation of the minimum water runoff of the Uzh sub-basin (Tysza river basin), Hidrolohiiа, hidrokhimiiа i hidroekolohiiа, 2(49), 6-15.
  • 14. Kanarskyi Yu.V. 2016. Climate changes in the region of Ukrainian Carpathians at the beginning of XXI century and its influence on the biodiversity. Scientific principles of biodiversity conservation, 7(14), 1, 15-36.
  • 15. Velychko S., Dupliak O. 2021. Assessment of the Influence of Evaporation and Evapotranspiration on the Volume of Sludge Accumulation in the Sludge Drying Beds, Journal of Ecological Engineering, 22(2), 63–69.
  • 16. Kalbus E., Reinstorf F., Schirmer M. 2006. Measuring methods for groundwater – surface water interactions: a review, Hydrol. Earth Syst. Sci., 10, 873–887.
  • 17. Salem A., Dezs J., El-Rawy M., Lóczy D. 2020. Hydrological Modeling to Assess the Efficiency of Groundwater Replenishment through Natural Reservoirs in the Hungarian Drava River Floodplain, Water, 12, 250.
  • 18. Li Y., Zhang Q., Lu J., Yao J., Tan Z. 2019. Assessing surface water–groundwater interactions in a complex river‐floodplain wetland‐isolated lake system, River Res. Applic. 35, 25–36.
  • 19. Koczka Bara M., Velísková Y., Dulovičová R., Schügerl R., 2014, Influence of surface water level fluctuation and riverbed sediment deposits on groundwater regime, J. Hydrol. Hydromech., 62, 3, 177–185.
  • 20. Ha K., Koh D., Yum B-W., Lee K-K., 2008. Estimation of river stage effect on groundwater level, discharge, and bank storage and its field application, Geosciences Journal, 12(2), 191-204.
  • 21. Lóczy D., Dezső J., CzigányS., Prokos H., Tóth G. 2017. An environmental assessment of water replenishment to a floodplain lake, Journal of Environmental Management, 202(2), 337-347.
  • 22. Golus W., Bajkiewicz-Grabowska E. 2017. Water circulation in the moraine ponds of northern Poland, Hydrobiologia, 793, 55–65.
  • 23. Dawidek J., Ferencz B. 2014. Water balance of selected floodplain lake basins in the Middle Bug River valley, Hydrol. Earth Syst. Sci., 18, 1457–1465.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-fbf8c0e6-6eff-4bce-a3dd-b2a10cb24e02
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